Data-Driven Policymaking for Sustainable Agribusiness Development: An Analysis on Leveraging AI and Digital Technologies

Authors: Johnson Thirdo Malgwa
Data-Driven Policymaking for Sustainable Agribusiness Development: An Analysis on Leveraging AI and Digital Technologies
DIN
IJOEAR-AUG-2026-18
Abstract

The global agricultural sector faces an unprecedented convergence of challenges: population growth, accelerating climate variability, and chronic food insecurity. Artificial intelligence (AI) and digital technologies have emerged as transformative instruments capable of reshaping agribusiness value chains and enabling evidence-based policymaking at scale. This paper examines how data-driven policymaking can advance sustainable agribusiness development in Nigeria—Africa's largest economy—with particular focus on how AI technologies proven in the United States, the Netherlands, Japan, and Australia can be directly replicated and adapted for the Nigerian context. Nigeria's agricultural sector, contributing 24.8 percent of GDP and employing over 70 percent of the rural population, stands at a critical inflection point characterized by profound dualities of latent potential and systematic underperformance. The paper maps specific replication pathways across six priority domains: satellite crop monitoring, AI-powered market intelligence, precision agriculture for smallholders, agricultural finance and index insurance, supply chain optimization, and national data infrastructure. Drawing on proven pilot programs already operational in Nigeria, the paper presents eight integrated, actionable policy recommendations spanning data infrastructure establishment, national governance frameworks, digital extension services, AI innovation funding, broadband connectivity, and evidence-based monitoring architecture. Together, these constitute a coherent digital transformation agenda capable of closing Nigeria's productivity gap and positioning the country as a continental leader in sustainable agribusiness development. 

Keywords
Agribusiness Artificial intelligence Data-driven policy Digital agriculture Food security Nigeria Precision agriculture Agricultural policy Digital transformation Smallholder farmers.
Introduction

Agriculture remains the backbone of global economic development, providing livelihoods for an estimated 2.5 billion people and contributing approximately 4 percent of global GDP (World Bank, 2023). Despite its foundational importance, the sector faces an unprecedented convergence of structural pressures that conventional farming systems are increasingly ill-equipped to manage. The Food and Agriculture Organization of the United Nations (FAO) estimates that global food production must increase by at least fifty percent from 2012 levels to meet projected demand by 2050—a target that is widely acknowledged to be impossible to achieve through traditional farming methods alone (Fadiji et al., 2023). This imperative is compounded by accelerating climate variability, which threatens the stability of agricultural production across all major food-producing regions, and by the uneven distribution of agricultural productivity gains across the global South. 
The concept of data-driven policymaking—the systematic use of empirical data, digital monitoring systems, and predictive analytics to inform agricultural governance decisions—has emerged as a critical response to these challenges. Razak et al. (2024) characterize this shift as the convergence of precision agriculture, big data infrastructure, and intelligent decision systems into what they term "smart farming," a paradigm that treats agricultural management as an information-intensive enterprise rather than a labor-intensive one. 

Conclusion

This study demonstrates that the technologies required to transform Nigerian agriculture already exist and have been successfully deployed both globally and within Nigeria itself. Evidence from the United States, the Netherlands, Japan, and Australia confirms that AI-driven agricultural systems deliver measurable gains in productivity, efficiency, and sustainability. More importantly, pilot initiatives within Nigeria have already validated these outcomes under local conditions (Nawaz et al., 2025). 
The persistence of low agricultural productivity in Nigeria is therefore not a consequence of technological limitations, but of institutional and data infrastructure deficiencies. The absence of integrated data systems, weak governance frameworks, and fragmented policy implementation has prevented the scaling of proven solutions (Ikubanni et al., 2025). 
Consequently, Nigeria's agricultural transformation depends on a fundamental shift toward data-driven policymaking. The establishment of national data infrastructure, coordinated governance mechanisms, and inclusive digital extension systems is not optional but essential. Without these reforms, existing investments in agricultural policy will continue to underperform. 
Conversely, with the adoption of the integrated policy framework proposed in this study, Nigeria has the capacity to close its productivity gap, reduce food import dependency, and emerge as a leader in digital agribusiness across Africa.

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References

[1] ABARES. (2022). Australian agricultural and grazing industries survey. Australian Bureau of Agricultural and Resource Economics and Sciences. 
[2] Akintuyi, O. B. (2024). The role of artificial intelligence in U.S. agriculture: A review. Open Access Research Journal of Engineering and Technology, *6*(2), 23-32. 
[3] Babar, A. Z., & Akan, Ö. B. (2024). Sustainable and precision agriculture with the Internet of Everything [arXiv preprint]. 
[4] Fadiji, T., Bokaba, T., Fawole, O. A., & Twinomurinzi, H. (2023). Artificial intelligence in postharvest agriculture: Mapping a research agenda. Frontiers in Sustainable Food Systems, *7*, 1226583. https://doi.org/10.3389/fsufs.2023.1226583 
[5] Federal Ministry of Agriculture and Rural Development. (2022). Agricultural Sector Action Plan (ASAP) 2022–2027. Federal Government of Nigeria. 
[6] Food and Agriculture Organization of the United Nations. (2022). The state of food and agriculture 2022: Leveraging automation in agriculture for transforming agrifood systems. FAO. https://doi.org/10.4060/cb9479en 
[7] Grains Research and Development Corporation. (2023). Return on investment in digital agriculture: A grains industry analysis. GRDC. 
[8] Hampel, G., & Fabulya, Z. (2024). The risks of AI in agriculture. Analecta Technica Szegedinensia, *18*(4), 32-44. https://doi.org/10.14232/analecta.2024.4.32-44 
[9] Ikubanni, P. P., Ejalonibu, D., Abioye, O. M., Alhassan, E. A., Faloye, O. T., & Adeleke, A. A. (2025). Recent advances of artificial intelligence in the agricultural sector: A review. NIPES Journal of Science and Technology Research.  https://doi.org/10.37933/nipes/7.4.2025.SI26 
[10] International Food Policy Research Institute. (2020). Evaluation of the Esoko market information system in West Africa (Discussion Paper 01945). IFPRI. 
[11] Kisliuk, B., Krause, J. C., Meemken, H., & Saborío Morales, J. C. (2023). Artificial intelligence in current and future agriculture: An introductory overview. KI – Künstliche Intelligenz, *37*(2), 117-132. https://doi.org/10.1007/s13218-023-00826-5 
[12] Majeed, Y., Fu, L., & He, L. (2024). Artificial intelligence-of-things (AIoT) in precision agriculture. Frontiers in Plant Science, *15*, 1369791. https://doi.org/10.3389/fpls.2024.1369791 
[13] Ministry of Agriculture, Nature and Food Quality, Netherlands. (2023). Topsector Agri & Food: Annual report 2023. Dutch Government. 
[14] Murindanyi, S., Nakatumba-Nabende, J., Sanya, R., Nakibuule, R., & Katumba, A. (2024). Enhanced infield agriculture with interpretable machine learning approaches for crop classification [arXiv preprint]. 
[15] National Bureau of Statistics. (2023). Nigerian gross domestic product report Q3 2023. NBS. 
[16] Nawaz, U., Zaheer, M. Z., Khan, F. S., Cholakkal, H., Khan, S., & Anwer, R. M. (2025). AI in agriculture: A survey of deep learning techniques for crops, fisheries, and livestock [arXiv preprint]. 
[17] Nwachukwu, I., Amadi, O., & Okoye, F. (2021). Policy implementation gaps in Nigerian agricultural transformation. African Journal of Agricultural Policy, *8*(2), 45-63. 
[18] Pervez, A. K. M. K., Kabir, M. S., Prodhan, F. A., Rahman, M. H., & Roy, A. (2026). Mapping recent trends in artificial intelligence research for sustainable agriculture: A bibliometric and systematic review. Discover Artificial Intelligence. 
[19] Razak, S. F. A., Yogarayan, S., Sayeed, M. S., & Derafi, M. I. F. M. (2024). Agriculture 5.0 and explainable AI for smart agriculture: A scoping review. Emerging Science Journal, *8*(2). https://doi.org/10.28991/ESJ-2024-08-02-024. 

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